rmladmin, Author at Rocky Mountain Labs

How to Perform Metallurgical Analysis Step by Step

Metallurgical analysis is a foundational tool for understanding the structure, composition, and performance of metals and alloys. Knowing how to perform metallurgical analysis step by step is critical for manufacturers, engineers, and researchers investigating material failures, validating processes, or supporting research and development. At Rocky Mountain Labs, metallurgical analysis follows a disciplined laboratory workflow designed to produce accurate, defensible, and application-relevant results.

How to Perform XPS Surface Analysis Step by Step

X-ray Photoelectron Spectroscopy (XPS) is one of the most powerful techniques for understanding surface chemistry, elemental composition, and chemical states within the top few nanometers of a material. Knowing how to perform XPS surface analysis step by step helps engineers, manufacturers, and researchers understand the rigor required to produce reliable and defensible surface data. At Rocky Mountain Labs, XPS surface analysis follows a structured laboratory workflow designed to preserve surface integrity and deliver meaningful results.

How to Interpret FTIR Spectra When Peaks Overlap

Interpreting an FTIR spectrum is usually straightforward when absorption bands are clean and well separated. In real-world samples, however, spectra are rarely ideal. One of the most common challenges analysts face is overlapping peaks, where multiple molecular vibrations absorb infrared light in the same region.

When this happens, interpretation becomes less about reading a chart and more about understanding context, limitations, and material behavior. This article explains why peak overlap occurs, how it affects FTIR interpretation, and why definitive answers often require expert analysis rather than software alone.

How to Perform AES Surface Analysis Step by Step

Auger Electron Spectroscopy (AES) is a highly surface-sensitive analytical technique used to determine elemental composition and chemical variations at the outermost layers of a material. Understanding how to perform AES surface analysis step by step helps engineers, manufacturers, and researchers appreciate the precision, control, and expertise required to generate reliable surface chemistry data. At Rocky Mountain Labs, AES surface analysis follows a disciplined laboratory workflow designed to protect sample integrity and deliver actionable results.

How to Perform SEM Analysis Step by Step

Scanning Electron Microscopy (SEM) is a powerful analytical technique used to examine surface morphology, microstructural features, and compositional variations at high magnification. Understanding how to perform SEM analysis step by step helps engineers, manufacturers, and researchers appreciate the structured laboratory process required to generate accurate, interpretable results. At Rocky Mountain Labs, SEM analysis is performed using a disciplined workflow that emphasizes sample integrity, data quality, and expert interpretation.

How to Perform FTIR Analysis Step by Step

Fourier Transform Infrared (FTIR) spectroscopy is one of the most widely used analytical techniques for material identification and contamination analysis. Understanding how to perform FTIR analysis step by step helps manufacturers, engineers, and R&D teams appreciate what goes into generating reliable, defensible results in a professional laboratory environment. At Rocky Mountain Labs, FTIR analysis is performed as part of a structured analytical workflow designed to deliver accurate, meaningful data rather than just spectra.

FTIR Analysis of Films

In Fourier Transform Infrared (FTIR) spectroscopy at Rocky Mountain Labs, polymer film chemical composition is identified and foreign materials on or within film layers analyzed. From barrier and packaging layers to protective films and industrial membranes, FTIR analysis provides a quick, non-destructive means of verifying material identity, examining surface modifications, and identifying contamination that could affect performance or quality.

Metallurgical Corrosion Analysis

At Rocky Mountain Labs, metallurgical analysis is a critical technique for investigating corrosion-related failures and material degradation in metals and alloys. Corrosion can compromise structural integrity, shorten service life, and lead to costly breakdowns in essential components across industries such as aerospace, manufacturing, transportation, energy, and medical devices. Through precise metallurgical examination, we help clients identify corrosion mechanisms, analyze contributing factors, and develop prevention strategies and better material choices.

XPS Contaminant Analysis

At Rocky Mountain Labs, X-ray Photoelectron Spectroscopy (XPS) is utilized as a high-resolution technique to identify and characterize surface-level contaminants on metals, polymers, ceramics, thin films, and coated components. XPS provides both elemental and chemical bonding data from the top ~5–10 nanometers of a surface, making it an essential tool in contamination analysis where surface integrity is critical.

AES Analysis for Elastomers

At Rocky Mountain Labs, Auger Electron Spectroscopy (AES) is employed to analyze surface chemistry of elastomeric materials with ultra-high spatial resolution and sensitivity. Elastomers, which are common in seals, gaskets, o-rings, and flexible molded components, most times fail or degrade as a result of surface contamination, oxidation, or bonding issues. AES supplies the surface-specific elemental information necessary to evaluate these materials and address key problems of adhesion, surface treatment, or foreign contamination.

Author: rmladmin